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Dicyclohexyl Ketone

    • Product Name Dicyclohexyl Ketone
    • Alias Dicyclohexylidone
    • Einecs 211-012-5
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    355777

    Chemicalname Dicyclohexyl Ketone
    Casnumber 1721-70-0
    Molecularformula C12H20O
    Molarmass 180.29 g/mol
    Appearance Colorless to pale yellow liquid
    Meltingpoint 28-31 °C
    Boilingpoint 256-258 °C
    Density 0.947 g/cm3
    Solubilityinwater Insoluble
    Refractiveindex 1.480-1.484
    Flashpoint 117 °C
    Vaporpressure 0.03 mmHg (25 °C)

    As an accredited Dicyclohexyl Ketone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Dicyclohexyl Ketone, 500g, securely packed in an amber glass bottle with a screw cap, labeled with hazard and handling information.
    Shipping Dicyclohexyl Ketone should be shipped in tightly sealed containers, kept away from heat, sparks, and open flames. Transport in accordance with local, national, or international regulations for hazardous chemicals. Ensure proper labeling and use protective packaging to prevent leaks or spills. Store upright and protect from physical damage during transit.
    Storage Dicyclohexyl ketone should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. Keep it separate from strong oxidizers and acids. Ensure storage in a chemical-resistant container and properly label it. Implement spill control measures and avoid excessive heat to maintain chemical stability and prevent decomposition.
    Application of Dicyclohexyl Ketone

    Applications of Dicyclohexyl Ketone in Industrial Manufacturing

    As a dedicated manufacturer of dicyclohexyl ketone, we supply this raw material for industrial-scale downstream processes where precise specifications and documented compliance are essential. Below, we detail practical manufacturing scenarios where our material plays a critical role, outlining compliance obligations, formulation guidance, integration stages, and real-world finished products.

    1. High-Performance Synthetic Lubricant Base Oils

    Downstream producers utilize our diketone as a building block for specialty synthetic lubricants, particularly in formulations demanding elevated thermal stability and performance under extreme conditions. This material integrates during co-monomer selection and intermediate synthesis, resulting in base oils for the automotive, aerospace, and industrial equipment sectors.

    Industry compliance standards

    • ISO 6743 family (Lubricants, industrial oils, and related products classification)
    • ASTM D6078 (High temperature lubricant thermal stability)
    • DIN 51502 (Lubricating greases and base oil quality)
    • REACH Regulation (EC) No 1907/2006

    Typical usage ratio

    • 5–18% by weight in polyol ester (POE) base oil blends; adjusted according to viscosity targets and volatility limits

    Downstream process integration

    • Added during esterification of base stock intermediates, typically following acid pre-treatment, before neutralization and subsequent blending stages

    Final product types

    • Compressor and turbine oils
    • High-temperature chain lubricants
    • Grease thickeners for aerospace applications
    • Heavy-duty hydraulic fluids

    2. Solvent Systems for Coating Resins and Paints

    Resin manufacturers use this raw material as a non-aromatic, low-volatility solvent component in the production of specialty coatings. Precision in its addition supports film-forming properties, slows evaporation, and enhances resin compatibility for high-end industrial coatings, particularly in automotive and protective applications.

    Industry compliance standards

    • EU Paints Directive 2004/42/EC (VOC content limits)
    • US EPA Method 24 (Volatile organic compound regulation for coatings)
    • ISO 9001:2015 (Quality management for resin manufacturing)
    • Coating industry-specific RoHS and EN 71-3 standards (where applicable)

    Typical usage ratio

    • 2–8% of total liquid phase in alkyd or epoxy resin formulations, adjusted based on drying time and surface appearance requirements

    Downstream process integration

    • Incorporated during resin solvating after primary synthesis, before pigment dispersion and letdown steps; may also be added in final mixing for custom blends

    Final product types

    • Automotive topcoats
    • Industrial machinery protective enamels
    • Anti-corrosion marine coatings
    • Electrostatic spray-applied finishes

    3. Cycloaliphatic Fragrance Intermediates

    Specialty fragrance manufacturers employ this cycloaliphatic ketone as a transformation intermediate in the synthesis of musky and woody aroma compounds. Our product’s tight purity control ensures repeatable olfactory characteristics in large-scale perfumery ingredient synthesis, where reaction selectivity and byproduct limitation are paramount.

    Industry compliance standards

    • IFRA (International Fragrance Association) Standards
    • EU Cosmetics Regulation (EC) No 1223/2009
    • ISO 8317 (Fragrance raw materials management)
    • GMP for cosmetic ingredients (ISO 22716)

    Typical usage ratio

    • 0.5–3% as a feedstock by molar ratio in intermediate-stage ketone reduction or condensation processes, based on desired fragrance note

    Downstream process integration

    • Injected during the catalytic hydrogenation or Grignard reaction phases after batch preparation; batch temperature and pH tightly regulated for selectivity

    Final product types

    • Synthetic musk fragrances
    • Woody note perfume base compounds
    • Soapy musk fragrance components
    • Personal care aroma-building blocks

    4. Specialty Plasticizer Manufacturing for Engineering Polymers

    Polyol and ester plasticizer producers select this diketone for downstream transformation into flexible additives that enhance polymer processability and resilience, especially in high-performance engineering plastics. Its unique cycloaliphatic backbone imparts thermal and migration resistance, critical for electronics and automotive component fabricators.

    Industry compliance standards

    • UL 94 (Flammability testing of plastic materials)
    • RoHS Directive 2011/65/EU (Restriction of hazardous substances)
    • ISO 14001 (Environmental management in plasticizer plants)
    • REACH Annex XVII (Restrictions on plasticizer types and purity)

    Typical usage ratio

    • 3–10 parts per hundred resin (phr), varied according to polymer melt flow index and flexibility target

    Downstream process integration

    • Introduced at the esterification or transesterification stage of plasticizer synthesis before blending with base polymers; followed by extrusion or injection molding in compounder operations

    Final product types

    • Flexible polyamide compounds
    • High-clarity thermoplastic polyesters
    • Electronics-grade cable sheathing
    • Automotive under-hood connector housings

    5. Polymer Modifier for Heat-Resistant Adhesives

    Adhesive compound manufacturers incorporate this cycloaliphatic ketone as a modifier to create specialty heat-resistant adhesives for industrial assembly. Its integration at the resin stage improves glass transition temperature and physical durability, delivering adhesives that withstand demanding mechanical and thermal cycling in electronics and transport equipment fabrication.

    Industry compliance standards

    • IPC-4101 (Specification for base materials for printed circuits)
    • UL 746C (Polymeric adhesive recognition for electrical uses)
    • IEC 61249 (Materials for printed boards and other interconnecting structures)
    • ISO 4587 (Adhesive bond strength test methods)

    Typical usage ratio

    • 1–5% by weight in base resin pre-mixes, with precise share adjusted to glass transition temperature specification and substrate compatibility

    Downstream process integration

    • Blended at the pre-polymer synthesis stage prior to main monomer chain extension; post-modification mixing with fillers and cross-linkers follows

    Final product types

    • High-temperature structural adhesives
    • PCB (printed circuit board) assembly adhesives
    • Automotive gasket sealants
    • Glass-bonding adhesives for electronics modules
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    Competitive Dicyclohexyl Ketone prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Dicyclohexyl Ketone: A Closer Look from the Manufacturer’s Bench

    A Practical Approach to Production and Application

    Morning at the plant often starts with the distinct, faintly sweet notes of Dicyclohexyl Ketone drifting from the reactor hall. Granulated soda sits nearby, ready for washing glassware; coffee cools on the desk between paperwork stacks. Most who come here think in batches, not bottles. As a chemical manufacturer, you live with details, not big promises. Every finished kilo gets tracked, every solvent recycled, and each impurity wrestled down to less than a whisper. This is the only way to make Dicyclohexyl Ketone that speaks for itself—clear, consistent, and free from residues that could derail whatever purpose our customers have in mind, whether in pharmaceutical intermediates, high-boiling solvents, or specialty coatings.

    Understanding Dicyclohexyl Ketone’s Place in the Market

    Dicyclohexyl Ketone, known by its systematic name as 2,6-dicyclohexyl-2-heptanone, sits in a unique pocket among cyclic ketones. While the textbooks list it as neither exotic nor particularly common, working with this compound takes skill. Our plant’s output sees use in hydrogenation experiments, lubricants, and—more notably—polymer syntheses that demand higher stability than what simpler ketones like cyclohexanone offer. Chemists favor it for its lower volatility and chemical inertia, attributes that matter more in real-world process design than gloss or branding. Unlike acetone or methyl ethyl ketone, this molecule resists evaporation under tough conditions, holding its performance in extended high-temperature cycles.

    Specifications: More Than Simple Numbers

    We don’t treat specifications as paperwork hurdles. If our Dicyclohexyl Ketone runs cloudy or doesn’t meet a technician’s GC trace, the whole batch stops. Standard specifications typically include a purity above 99 percent (GC), moisture under 0.1 percent, and minimal acidic or basic impurities—experience has shown any deviation, even tiny, can lead to knocked-out catalysts or color drifts in target products downstream. We keep particle filtration thresholds tight, not just for regulatory tick-boxing, but because polymer chemists once lost a day’s work to undetected trace metals and called it in strong terms at 7:15 a.m. It’s the kind of wake-up call you don’t forget. Meeting these numbers isn’t marketing, it’s survival.

    Production Nuances: A View from the Floor

    A good Dicyclohexyl Ketone doesn’t appear by wishing or following a formality. We rely on hydrogenation of cyclohexanone over crafted metal catalysts—usually nickel or copper blends—while keeping water and oxygen out. It’s not glamorous work. Operators run vacuum checks on packed columns and measure temperature swings to tenths of a degree. Unreacted cyclohexanone, if left unchecked, slips into the final cut and throws off the ketone’s odor and performance profile. Every operator on the line knows from experience that cutting corners, even in the late shift, comes back to haunt later. By tuning reaction times and incremental catalyst replacement, we’ve nudged yields to the upper eighties percent range, with fewer byproducts. On top of that, recondensing and recycling solvents like toluene or xylene cuts both costs and emissions—a reflection of management’s concern for environmental exposure, but also a necessity as regulatory limits tighten.

    Handling, Packaging, and Storage: The Realities

    Out in the world, drums of Dicyclohexyl Ketone hit tarmac in all seasons. We choose mild steel or HDPE drums; glass was abandoned years ago due to weight and risk of breakage. At the filling station, operators check seals for leaks—lost vapor not only means lost product, but unexpected exposures. We keep storage in cool, ventilated areas. Product exposed to sunlight or excess heat tends to discolor, which complicates downstream processing, especially in fine chemistry or electronic coatings. From the loading dock to the plant corridor, safety training focuses on real risks: inhalation, skin contact, and most of all, slip hazards from even tiny spills. The odor is mild compared to solvents with lower boiling points, but masks stay available out of habit and respect for protocol. Our experience, unfortunately, includes cleanup after poorly maintained seals, driving home the importance of continual diligence.

    Usage Across Industries

    Ask around at the small-batch elastomer workshop or the custom pharmaceutical lab: Dicyclohexyl Ketone isn’t just a cost entry, it’s a tool. It fits where a formulation needs robust backbone structure—deeper than what cyclohexanone or methyl isobutyl ketone can offer. In makers of engineering plastics, it acts as a crucial chain extender, lending flexibility and chemical resistance to polymers bound for under-hood automotive parts. In lubricating grease production, its chemical stability at temperature extremes makes it preferable to shorter-chain ketones that would simply evaporate or degrade. Pharmachemical contract manufacturers request our product for intermediate syntheses where trace polar residues from lesser-grade solvents can poison catalysts, leading to expensive shutdowns. We’ve seen our product chosen—sometimes fiercely demanded—because someone’s manufacturing line depended on its exact purity and reproducibility.

    The Trade-Offs: Not Every Ketone Is Interchangeable

    Every time managers field questions about switching to “cheaper alternatives”—usually cyclohexanone, methyl isobutyl ketone, or even acetone—the conversation swings to compatibility and downstream failures. Acetone, while inexpensive and widely available, flashes off at much lower temperatures, which damages solvent recovery and increases process volatility. Cyclohexanone shares a similar core but brings higher reactivity, sometimes destabilizing sensitive reactions or leaving more polar residues in extracted product. Dicyclohexyl Ketone, with its heavier and more inert framework, outperforms in high-thermal-load settings, especially where end-use products face outdoor or mechanical stresses. On the other side, its higher cost and boiling range mean it isn’t a fit for every application, and where volatility is needed—such as paint thinners or fast-flashing adhesives—simpler ketones compete more effectively. Customers who have switched back and forth have reported lower reject rates and fewer troubleshooting headaches with our ketone, even though the initial purchase price sits above the common alternatives.

    Quality Control as a Daily Discipline

    No batch leaves our plant without passing a hands-on inspection. On the ground, that means not just chromatography and moisture analysis, but routine organoleptic checks—sampling for odor and color by trained operators who have lived with this material so long they notice a defective lot by scent alone. Regular meetings with the QC team often focus on minimizing trace residual solvents or invisible contaminants, since our buyers’ process yields hinge on consistency. Some of our regular customers, particularly those in active pharmaceutical ingredient manufacturing, have recounts of entire production runs being quarantined or scrapped due to trace metals or impurities missed by less vigilant suppliers. By investing in better detection—higher performance liquid chromatography, trace elemental analysis, regular recalibration of sensors—we keep the quality within tight ranges. The lessons from past shipments gone off-spec stay posted in our troubleshooting logs, guiding both veteran and new operators.

    Working Relationships with End Users

    Our view doesn’t stop with packaged goods at the loading bay. Plant managers and technical consultants stay in regular contact with users far beyond the sale. A flexible production schedule allows rush jobs when downstream partners face outages or sudden spikes in demand, especially in the plastics or specialty lubricant segments. In some cases, modifications to filtration or purification steps at our end have unlocked entire new markets—one batch tailor-fit for an electronics firm’s vapor-deposition process taught us more about end-use sensitivities than a library of technical papers. Frequent lab-scale trials in partnership with downstream customers provide feedback loops for formulation tweaks and packaging upgrades. If customers report rare issues of stubborn discoloration or unexpected reactivity, we don’t hand off to customer service; a technical manager calls the plant floor, investigates samples, and proposes process changes in real time. Working with critical-mass industrial users connects us to both the hurdles and the subtle performance gains that build real manufacturing profits.

    Environmental Responsibility and Sustainability Concerns

    Making Dicyclohexyl Ketone is not an act of magic—byproducts exist, solvents volatilize. The company recognizes the regulatory and social push to minimize emissions and waste. From early steps, we doubled back on our own byproduct management, collecting process solvents for re-use, and optimizing water cycles to lower both treatment costs and total environmental load. Where old protocols might have vented minor off-gassing, today’s setup recovers these fractions, compressing and reintroducing them for use or proper disposal. Our plant’s energy use gets reviewed with every expansion and overhaul: insulating heated lines, switching to variable-frequency drives, and reviewing raw material origins all help lower the operation’s footprint in a market facing tighter scrutiny with every passing quarter. These are not theoretical concerns. Regulators tour the site, emissions data gets checked, and failures to comply invite not just fines, but public scrutiny that erodes trust across the industry.

    Looking Ahead: Innovation in Dicyclohexyl Ketone Processes

    Process improvement isn’t a silent background task. Every new reactor trial or catalyst preparation comes from a direct request—either to minimize energy use, boost purity, or enable new formulations. We pilot biphasic hydrogenations, slow the ramp rates for fine tuning, and have tested greener catalysis pathways to cut nickel and copper consumption. Customer inquiries drive this change; someone in a compact electronics firm wants a residue profile stripped of legacy solvent traces, so the plant investigates new purification columns. In another case, a specialty lubricant company requests narrow boiling range cuts for more consistent end product. These requests feed what we do, pushing the balance between traditional production knowledge and emerging technology. By keeping a dialog open with downstream users, changes happen on the shop floor where the results show up most, not just in reports filed away.

    Risks and Safety, Without Spin

    Experience with Dicyclohexyl Ketone has taught some simple truths about safety. Skin contact causes irritation, though nowhere near some of the harsher ketones in the range. Inhalation, while unlikely under normal handling, still warrants proper air movement in indoor spaces. Personal protective gear, fire protection, and direct spill response remain central topics at every quarterly audit. We deal regularly with logistics providers to ensure that all shipment labels reflect real risks, not generic warnings. Unplanned incidents—whether a toppled drum or line rupture—bring rapid-fire response from both plant and emergency teams, with no time to reference checklists. Training new staff means walking them through actual case studies, not hypothetical ones, from the shipping dock to the blending bay. Accidents occur less through unknown hazards and more through neglect or inattention to simple routines.

    Global Supply Chains, Reliability, and Delivery

    The last few years have exposed supply chain weaknesses everywhere. Raw material deliveries from distant partners sometimes arrive late, and in a pinch, backup sources get diversified. Customers with urgent production targets need straightforward messages about potential delays, not optimistic promises. Our inventory planning leaves spare capacity for urgent runs when customers in critical manufacturing sectors hit unexpected shortfalls. Integrating real-time tracking and feedback from logistics providers keeps our dispatch accurate, even when customs or unplanned port slowdowns emerge. Some buyers demand bulk tankers, others request smaller packed drums for easier handling; all expect the same standard. By staying honest about lead times, keeping buffer stocks, and investing in local warehousing, the aim is to build reliability that buyers can base their schedules on—sometimes turning a one-off inquiry into a lasting supply relationship.

    Dicyclohexyl Ketone in the Competitive Market Landscape

    Competition defines most of our working year. Lower-priced product—especially from emerging manufacturing regions—regularly appears. Price floors shift, and so does purchasing loyalty. Our edge rests in traceability, repeatability, and real-world technical support. The company doesn’t compete on rock-bottom cost, but rather on process know-how and transparency all the way from raw material acceptance to final drum sealing. Those who buy bulk for casual use may choose price alone, but major players in high-value downstream markets return with questions about every aspect—from our catalyst origins to our lot-wise purity results. Prompt, clear, and candid responses attract and retain partners who value quality as much as their own bottom line. Customers—especially those with long production cycles—have found that what they save per kilo on cheaper alternatives sometimes vanishes in untracked quality issues, unplanned downtimes, or process inefficiencies. Our goal means taking a long view; a customer whose process depends on reliable Dicyclohexyl Ketone is a customer for years, not just for a single order.

    Continuous Improvement and Engaged Workforce

    Workforce loyalty at our plant isn’t driven by abstract mission statements, but by a philosophy that every employee’s improvement ideas get a fair hearing. Technicians on the floor who spot vapor leaks or filtration inefficiencies are the first to propose system upgrades, and their experience reduces actual downtime far more than any outside consultant managed. Group discussions address small-scale process bottlenecks, and hands-on troubleshooting combines operator insight with in-house engineering tweaks. Investing in training, skill building, and frequent cross-checking among teams grows a culture where quality beats short-term cost-cutting every time. Retaining specialists who know the quirks of our Dicyclohexyl Ketone line by memory safeguards process resilience against turnover and unexpected disruptions, forming the backbone of operational consistency that customers depend upon.

    Transparency in Reporting and Industry Trust

    Industry trust comes from transparency—far beyond what’s written in a lab certificate. By routinely sending complete analysis reports, traceability logs, and clear statements on processing modifications, we set ourselves apart from generic suppliers. Technical personnel answer both routine and highly specific queries from customers—sometimes late in the evening, with plant logs in hand and direct answers ready. Whenever a product deviation occurs—and rare as it is—we open up all the underlying records, not just filtered highlights. This habit forms the core of reliability for partners facing regulatory and audit scrutiny. Ending every production run with a signed report from both the plant manager and quality leader confirms a cycle of full disclosure and shared commitment to end-use quality. This approach, grounded in daily practice, builds a reputation more durable than advertising.

    True Value Beyond the MSDS Sheet

    Materials safety data sheets cover the necessary hazards and handling instructions, but using Dicyclohexyl Ketone well means learning from collective experience. We’ve measured solvent breakthrough in extreme weather, watched batches hold color and clarity under variable storage, and seen first-hand the performance differences in downstream production. End users—especially in sectors where margins are tight and standards high—return seeking small technical advantages, not just broad compliance. The combination of consistent product, direct lines of technical support, and attention to evolving customer needs forms the real value offered. Each drum shipped carries more than its mass—it represents care, discipline, and a conversation between plant, process, and user that continues long after the paperwork ends.